首页> 外文会议>International Conference on Advanced Cognitive Technologies and Applications >VoxeINET's Geo-Located Spatio Temporal Softbots: including living, quiet and invisible data
【24h】

VoxeINET's Geo-Located Spatio Temporal Softbots: including living, quiet and invisible data

机译:Voxeinet的地理位置时空颞毛刺:包括生活,安静和无形的数据

获取原文

摘要

Linnaeus and Darwin understood the need to classify 'living things' to determine the basis of their relationships and interrelationships. In an Internet-of-Things (IoT) world we need to do the same, to be able to identify and compute with objects by type. However, the IoT does not inherently deal with spatial or geometrical structure, and mass phenomena (e.g. air, water, rock) are not objects per se. This can exclude these 'non-object' things from the IoT, which can be a severe disadvantage in many application domains. The solution to this is voxelisation of mass phenomena in the world within an overall coherent three dimensional coordinate reference system. This allows 'non-things' to be coherently situated, classified and treated computationally in the same way as discrete things and individual objects. VoxelNET is a distributed digital architecture that supports this voxelisation model, providing a world of voxels containing various information at different geo locations that can be compared in terms of numerous and unlimited taxonomical categories, and over time. Performing computations across this highly distributed system of systems can greatly benefit from the use of distributed softbots or agents without the need for centralized computations or control. Hence the VoxeINET distributed architecture not only parses objects and materials into computable objects, but also includes spatially located and volumetric computational agents that can collectively achieve analytical outcomes in an inherently distributed way. Here this approach is exemplified by distributed VoxeINET agents collaborating to conduct 3D volumetric path finding through the VoxeINET space, using a distributed Dijkstra pathfinding algorithm. Stronger implementations of the agent concept can include supplementing the basic Dijkstra algorithm with more sophisticated competitive and/or collaborative behaviours on the agents/voxels involved.
机译:Linnaeus和Darwin了解需要对“生物”进行分类以确定其关系和相互关系的基础。在互联网上(IOT)世界,我们需要做同样的事情,能够按类型识别和计算对象。然而,物联网并不固有地处理空间或几何结构,质量现象(例如空气,水,岩石)本身不是物体。这可以从IOT中排除这些“非对象”的东西,这可能是许多应用领域的严重缺点。对此的解决方案是整个相干三维坐标参考系统内的世界中质量现象的体释放。这允许“非事物”是以相同的方式分类,分类和处理,与离散的东西和单独的物体相同。 Voxelnet是一种分布式数字架构,支持该VoxElisation模型,提供了一个在不同地理位置的各种信息的体素世界,这些信息可以在众多和无限的分类类别和随着时间的推移方面进行比较。在这种高度分布式系统系统中执行计算可以大大受益于使用分布式柔软的软点或代理而无需集中计算或控制。因此,VoxeIleInet分布式架构不仅将对象和材料解析为可计算对象,而且包括空间所定位的和体积计算代理,可以以固有的分布方式共同实现分析结果。这里,这种方法是使用分布的Dijkstra Pathfinding算法的分布式voxeinet代理的分布式voxeinet代理,以通过voxeinet空间传导3D体积路径。代理概念的更强实现可以包括补充具有更复杂的竞争和/或合作行为的基本Dijkstra算法在所涉及的药剂/体素上。

著录项

相似文献

  • 外文文献
  • 中文文献
  • 专利
获取原文

客服邮箱:kefu@zhangqiaokeyan.com

京公网安备:11010802029741号 ICP备案号:京ICP备15016152号-6 六维联合信息科技 (北京) 有限公司©版权所有
  • 客服微信

  • 服务号